2008
DOI: 10.1137/050632725
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Stochastic Optimal Control Problems and Parabolic Equations in Banach Spaces

Abstract: We consider stochastic optimal control problems in Banach spaces, related to nonlinear controlled equations with dissipative non linearity. These problems are treated via the backward stochastic differential equations approach, that allows also to solve in mild sense Hamilton Jacobi Bellman equations in Banach spaces. We apply the results to controlled stochastic heat and wave equations with cost functional well defined on continuous functions, and to delay equations in spaces of p-integrable functions.

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Cited by 37 publications
(56 citation statements)
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“…In particular it is trivially true in the special case E = H just by taking Ξ 0 = Ξ, since G is assumed to be a linear bounded operator from Ξ to H. The following is proved in [17,Theorem 3.17…”
Section: Then We Consider Again Equation (42)mentioning
confidence: 94%
See 3 more Smart Citations
“…In particular it is trivially true in the special case E = H just by taking Ξ 0 = Ξ, since G is assumed to be a linear bounded operator from Ξ to H. The following is proved in [17,Theorem 3.17…”
Section: Then We Consider Again Equation (42)mentioning
confidence: 94%
“…, and apply again [17] (see Proposition 4.2 there) and [12] (see Proposition 5.2 there) to obtain that for all α > 0 the map…”
Section: Then We Consider Again Equation (42)mentioning
confidence: 99%
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“…Using regularizing properties of stochastic convolutions, Masiero (2008) proved existence of mild solutions of a certain class of autonomous HJB equations on the space of continuous functions C(O). Under additional, somewhat restrictive conditions on the nonlinear coefficient F, particularly a dissipative-type condition and a very specific form of dependence with respect to the control variable, Masiero also solved the control problem using backward SDEs but with no use of Malliavin calculus.…”
Section: Dx(t) + A(t)x(t) Dt = F(t X(t) U(t)) Dt + G(t) Dw(t)mentioning
confidence: 99%